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Hyaluronic Acid-Functionalized Nanomicelles Enhance SAHA Efficacy in 3D Endometrial Cancer Models / Kadie Edwards, Seydou Yao, Simone Pisano, Veronica Feltracco, Katja Bruesehafer, Sumanta Samanta, Oommen P. Oommen, Salvatore Gazze, Roberta Paravati, Holly Maddison, Chao Li, Deya Gonzalez, Steve Conlan, Lewis Francis

Cancers, Volume: 13, Issue: 16, Start page: 4032

Swansea University Authors: Kadie Edwards, Seydou Yao, Simone Pisano, Veronica Feltracco, Katja Bruesehafer, Salvatore Gazze, Deya Gonzalez, Steve Conlan, Lewis Francis

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Abstract

Histone Deacetylase (HDAC) enzymes are upregulated in cancer leading to the development of HDAC inhibiting compounds, several of which are currently in clinical trials. Side effects associated with toxicity and non-specific targeting indicate the need for efficient drug delivery approaches and tumor...

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Published in: Cancers
ISSN: 2072-6694
Published: MDPI AG 2021
Online Access: Check full text

URI: https://cronfa.swan.ac.uk/Record/cronfa57595
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Abstract: Histone Deacetylase (HDAC) enzymes are upregulated in cancer leading to the development of HDAC inhibiting compounds, several of which are currently in clinical trials. Side effects associated with toxicity and non-specific targeting indicate the need for efficient drug delivery approaches and tumor specific targeting to enhance HDAC efficacy in solid tumor cancers. SAHA encapsulation within F127 micelles functionalized with a surface hyaluronic acid moiety, was developed to target endometrial cancer cells expressing elevated levels of CD44. In vitro viability and morphology analyses was conducted in both 2D and 3D models to assess the translational potential of this approach. Encapsulation enhanced SAHA delivery and activity, demonstrating increased cytotoxic efficacy in 2D and 3D endometrial cancer models. High-content imaging showed improved nanoparticle internalization in 2D and CD44 enhanced penetration in 3D models. In addition, the nano-delivery system enhanced spheroid penetration resulting in cell growth suppression, p21 associated cell cycle arrest, as well as overcoming the formation of an EMT associated phenotype observed in free drug treated type II endometrial cancer cells. This study demonstrates that targeted nanoparticle delivery of SAHA could provide the basis for improving its efficacy in endometrial cancer. Using 3D models for endometrial cancer allows the elucidation of nanoparticle performance and CD44 targeting, likely through penetration and retention within the tumor model.
Keywords: polymeric nanoparticles; hyaluronic acid; epigenetics; SAHA; nanomedicines; gynecological oncology; F127 micelles; targeted therapeutics; 3D models
College: Swansea University Medical School
Funders: This research was funded by Welsh Government’s European Social Fund (ESF) convergence programme for West Wales and the Valleys KESS II and Tenovus Cancer Care (KE). The Celtic Advanced Life Science Innovation Network (CALIN), an Ireland Wales 2014–2020 programme part funded by the European Regional Development Fund through the Welsh Government (SY). The Erasmus+ Mobility Scheme (SP), this project was co-funded by the European Union. The Life Sciences Cancers 2021, 13, 4032 20 of 23 Research Network Wales: project grant ‘Nanoparticle delivery of epigenetic modifiers: a targeted approach for Endometrial Cancer treatment’ (KB). The Natural and Environmental Research Council, UK [grant number NE/K004212/1] and SMARTExpertise 2014–2020 West Wales and the Valleys, European Regional Development Fund, under Grants 2017/COL/001 and 2017/COL/004 (AG).
Issue: 16
Start Page: 4032